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Smart Bridges: Design, Manufacturing, and Maintenance

About this Collection

The fourth industrial revolution brought on by interconnectivity and automation is being accelerated by AI technologies. These advances have been naturally breaking into traditional bridge engineering domains. Bridge engineers are beginning to face, understand, and deal with—and most importantly take advantage of—these new technologies, such as BIM, digital twins, machine/deep learning, big data analytics, data-driven modelling, blockchains, metaverse, etc. As a result, new concepts within the smart infrastructure domain have been emerging and rapidly developing. This special collection is intended for documenting the recent advances that specifically pertain to smart bridges. The specific topics include but not limited to:

  • Data-driven modeling bridge performance under service and extreme loads
  • Optimization-based smart bridge design
  • Manufacturing and design of smart bridge components
  • Point cloud and computer vision-based techniques for quality control
  • BIM-based virtual bridge pre-installation
  • Smart monitoring of bridge construction
  • Smart decision making for bridge maintenance
  • Novel sensing technologies
  • Self-healing and other advanced/smart material applications 
  • Adaptive bridges
  • Accelerated Bridge Construction 3D/4D printing with embedded smartness
  • Digital twin-based concepts for life-cycle cost-benefit analysis of bridges
  • Digital twin-based health and performance monitoring

Special Issue Editors

Prof. Dr. Steve C.S. Cai
Department of Civil and Environmental Engineering
3230D Patrick F. Taylor Hall
Louisiana State University
Baton Rouge, LA 70803, USA
Email: cscai@lsu.edu

Prof. Dr. Ertugrul Taciroglu
Civil and Environmental Engineering
UCLA Samueli School Of Engineering
Los Angeles, CA 90095, USA
Email: etacir@ucla.edu

Prof. Dr. Yail Jimmy Kim
Department of Civil Engineering
University of Colorado Denver, Denver, CO 80217, USA
Email: jimmy.kim@ucdenver.edu

Prof. Dr. Wen Xiong
Department of Bridge Engineering
Southeast University
Nanjing, China
Email: wxiong@seu.edu.cn

  1. In order to identify the time-varying frequency and amplitude of structural vibration based on the bridge structural health monitoring data and obtain the cable force of cable-stayed bridges in real time, a sp...

    Authors: Weiguo Wang, Xiaodong Song, Yang Yu, Hongchen Chang, Wenxin Yu and Wen Xiong
    Citation: Advances in Bridge Engineering 2024 5:15
  2. To mitigate cable oscillations in cable-stayed bridges, a common approach involves using a strategically positioned viscous damper near the cable’s anchorage and bridge deck. However, for longer cables, this m...

    Authors: Duy Thao Nguyen, Si Quanh Chau and Hoang Nam Phan
    Citation: Advances in Bridge Engineering 2024 5:12
  3. Prestressed girders often deteriorate over time due to environmental and man-made stressors, lowering the strength and serviceability of bridge structures. Although structural repairs are implemented to improv...

    Authors: Marwan Debees, Furkan Luleci and F. Necati Catbas
    Citation: Advances in Bridge Engineering 2023 4:8
  4. In bridge structural health monitoring, typically the dynamic response of the system is used to assess the health condition of the bridge. However, the dynamic interaction between a bridge and a passing vehicl...

    Authors: Neda Mostafa, Dario Di Maio, Richard Loendersloot and Tiedo Tinga
    Citation: Advances in Bridge Engineering 2022 3:12